Outdoor Field Test of 5G-based V2X Communication for Real-Time Monitoring and Remote Control of a Monorail Vehicle

Denis Gustin, Timo Siekmann, Bjorn Kroll, Philip Kleen, S. Schriegel, J. Jasperneite
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Abstract

Smart cities will be significantly shaped by their modes of mobility. For the blend of public and individual transport, smart mobility will introduce autonomous vehicles on a large scale, which often heavily rely on communication. As the capabilities of autonomous vehicles are still limited nowadays, driver-less vehicles have to be able to be remotely monitored and controlled in real-time. This creates high performance demands for the vehicle’s communication link, especially regarding latency and uplink, which can easily exceed the limits of communication standards like Long Term Evolution (LTE). Therefore, the development of the communication system for the newly developed autonomous monorail vehicle MONOCAB aims towards the use of the 5G standard. This paper presents experiences and measurements from a first outdoor field test conducted in the context of monitoring and remotely controlling the MONOCAB via 5G. Previously, all communication services were subjected to ITU-T Y.1564 compliant tests for the network planning and the deployment of a 5G Non-Public Network (NPN). This deployed 5G NPN was then used to test remote monitoring the MONOCAB, at it’s first public presentation on the 3rd of October 2022, by transmitting video streams and telemetry data from the vehicle to a central control station. Additionally, a glass-to-glass latency measurement of a video stream transmitted via 5G was conducted, to point out the latency impact of 5G.
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基于5g的V2X通信单轨车辆实时监控与远程控制室外现场试验
智能城市将在很大程度上受到其移动模式的影响。对于公共交通和个人交通的混合,智能移动将大规模引入自动驾驶汽车,这通常严重依赖通信。由于目前自动驾驶汽车的能力仍然有限,因此必须能够远程监控和实时控制无人驾驶汽车。这对车辆的通信链路提出了高性能要求,特别是在延迟和上行链路方面,这很容易超过长期演进(LTE)等通信标准的限制。因此,新开发的自主单轨车辆MONOCAB的通信系统的开发旨在使用5G标准。本文介绍了在通过5G监控和远程控制MONOCAB的背景下进行的首次室外现场测试的经验和测量结果。以前,所有通信业务都要经过符合ITU-T Y.1564标准的测试,以进行网络规划和部署5G非公共网络(NPN)。该部署的5G NPN随后被用于测试远程监控MONOCAB,在2022年10月3日的首次公开展示中,通过将视频流和遥测数据从车辆传输到中央控制站。此外,还对通过5G传输的视频流进行了玻璃对玻璃的延迟测量,以指出5G的延迟影响。
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